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This deck focuses on Solutions And Mixtures, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Solutions And Mixtures in AP Chemistry with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What does i represent in colligative property equations?
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i is the van 't Hoff factor, representing ion count from a solute. Accounts for ionic dissociation in solution.
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This deck focuses on Solutions And Mixtures, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: i is the van 't Hoff factor, representing ion count from a solute. Accounts for ionic dissociation in solution.
Answer: A homogeneous mixture of two or more substances. Components are uniformly distributed at molecular level.
Answer: The suppression of solubility due to a common ion in solution. Shared ion reduces solubility of ionic compound.
Answer: △Tf=3.72 °C. Using △Tf=i×Kf×m=2×1.86×1.
Answer: Mass percent = 5%. Using 100g5g×100%.
Answer: Mole fraction = total moles of all componentsmoles of component. Dimensionless ratio expressing relative amounts.
Answer: Solid solubility generally increases with temperature. More thermal energy overcomes lattice forces.
Answer: Molality = 1.5 mol/kg. Using m=2 kg3 mol.
Answer: The suppression of solubility due to a common ion in solution. Shared ion reduces solubility of ionic compound.
Answer: Mass percent = 5%. Using 100g5g×100%.
Answer: The substance dissolved in the solvent. The minor component that gets dissolved.
Answer: Mass percent = mass of solutionmass of solute×100. Percentage concentration by mass composition.
Answer: Molarity = 0.5 M. Using M=4 L2 mol.
Answer: A solution that contains more solute than it can theoretically hold at a given temperature. Unstable solution beyond normal solubility limit.
Answer: Mole fraction = 0.25. Using 1+31=41.
Answer: X represents the mole fraction of the solvent. Mole fraction shows proportion of solvent molecules.
Answer: A solution that conducts electricity due to dissociated ions. Ions enable current flow through solution.
Answer: The suppression of solubility due to a common ion in solution. Shared ion reduces solubility of ionic compound.
Answer: A solution that conducts electricity due to dissociated ions. Ions enable current flow through solution.
Answer: Properties that depend on the number of solute particles, not their identity. Particle count matters, not chemical identity.
Answer: The substance dissolved in the solvent. The minor component that gets dissolved.
Answer: Molarity (M) = liters of solutionmoles of solute. Concentration measured as moles per liter of solution.
Answer: Two liquids that do not mix to form a solution. Separate phases form due to different polarities.
Answer: A solution in which no more solute can dissolve at a given temperature. Equilibrium reached between dissolving and crystallizing.
Answer: Smaller particles dissolve faster due to larger surface area. Greater surface contact increases dissolution rate.
Answer: Molality = kilograms of solventmoles of solute. Concentration based on mass of solvent, not solution.
Answer: Mass percent = 5%. Using 100g5g×100%.
Answer: Molality = kilograms of solventmoles of solute. Concentration based on mass of solvent, not solution.
Answer: The solubility of a gas is directly proportional to its pressure above the solution. Higher pressure forces more gas into solution.
Answer: A heterogeneous mixture where particles settle out over time. Large particles visible and settle under gravity.
Answer: The substance in which the solute is dissolved. The major component that does the dissolving.
Answer: A solution that conducts electricity due to dissociated ions. Ions enable current flow through solution.
Answer: Moles per kilogram (mol/kg). Temperature-independent concentration unit.
Answer: Mass percent = 5%. Using 100g5g×100%.
Answer: The maximum amount of solute that can dissolve in a solvent at a given temperature. Temperature and pressure dependent dissolution limit.
Answer: The substance in which the solute is dissolved. The major component that does the dissolving.
Answer: The substance in which the solute is dissolved. The major component that does the dissolving.
Answer: The substance dissolved in the solvent. The minor component that gets dissolved.
Answer: A mixture where dispersed particles do not settle out. Intermediate size between solutions and suspensions.
Answer: The substance dissolved in the solvent. The minor component that gets dissolved.
Answer: Two liquids that are completely soluble in each other in all proportions. Complete mixing occurs at any ratio.
Answer: A solution that can dissolve more solute at a given temperature. More solute can still be added and dissolved.
Answer: Gas solubility increases with increasing pressure. Follows Henry's Law for gas-liquid equilibrium.
Answer: Psolution=Xsolvent×Ps0olvent. Vapor pressure lowering due to solute presence.
Answer: The process of surrounding solute particles with solvent molecules. Solvent molecules form cage around solute.
Answer: Gas solubility decreases as temperature increases. Higher temperature reduces gas-liquid attractions.
Answer: The substance in which the solute is dissolved. The major component that does the dissolving.
Answer: Moles per liter (mol/L). Standard concentration unit for molarity calculations.
Answer: Moles per kilogram (mol/kg). Temperature-independent concentration unit.
Answer: A solution that does not conduct electricity. No ions present to carry electrical current.
Answer: The suppression of solubility due to a common ion in solution. Shared ion reduces solubility of ionic compound.
Answer: △Tb=1.024 °C. Using △Tb=i×Kb×m=1×0.512×2.
Answer: The scattering of light by colloidal particles. Light beam becomes visible through colloid.
Answer: △Tf=i×Kf×m. Freezing point lowers with solute concentration.
Answer: Smaller particles dissolve faster due to larger surface area. Greater surface contact increases dissolution rate.
Answer: A solution that conducts electricity due to dissociated ions. Ions enable current flow through solution.
Answer: △Tb=i×Kb×m. Boiling point rises with solute concentration.
Answer: A mixture where dispersed particles do not settle out. Intermediate size between solutions and suspensions.